Abstract | Keywords | Export | Availability | Bookmark

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

The high demand for advanced metallic materials raises the need for an extensive recycling of metals and such a sustainable use of raw materials. ""Sustainable Utilization of Metals - Processing, Recovery and Recycling"" comprises the latest scientific achievements in efficient production of metals and such addresses sustainable resource use as part of the circular economy strategy. This policy drives the present contributions, aiming on the recirculation of EoL-streams such as Waste Electric and Electronic Equipment (WEEE), multi-metal alloys or composite materials back into metal production. This needs a holistic approach, resulting in the maximal avoidance of waste. Considering both aspects, circular economy and material design, recovery and use of minor metals play an essential role, since their importance for technological applications often goes along with a lack of supply on the world market. Additionally, their ignoble character and low concentration in recycling materials cause an insufficient recycling rate of these metals, awarding them the status of “critical metals”. In order to minimize losses and energy consumption, this issue explores concepts for the optimization concerning the interface between mechanical and thermal pre-treatment and metallurgical processes. Such new approaches in material design, structural engineering and substitution are provided in the chapters.

n/a --- tramp element --- reuse --- titanium recovery --- smartphone --- electrolytic manganese --- chemical equilibrium diagram --- thermodynamics --- displays --- selective extraction --- negative activation energy --- rare earths --- precipitation --- yttrium --- melting behavior --- zinc --- Bayer process --- silver leaching --- lanthanum --- steel scrap --- waste utilization --- super-gravity --- solvent extraction --- scandium --- magnesium --- gravity separation --- dynamic material flow model --- electrolytic lodes and scrapings --- enrichment of Ti --- ammonium scandium hexafluoride --- carbothermal reduction --- simultaneous recovery --- karst bauxite --- fines --- vanadium --- silver --- oxygen-depolarized cathodes --- ionic liquids --- flotation --- steelmaking dust --- aluminium purification --- zinc recycling --- physical separation --- manganese --- intermetallic formation --- gold --- aluminum alloy --- copper --- slag valorization --- reduction of Co --- NMC batteries --- process development --- REE–Nb–Fe ore --- bauxite residue --- hydrometallurgy --- Zinc --- polythermal section --- alkaline leaching --- electric arc furnace --- neodymium --- environmentally friendly process --- electrodeposition --- volatilization --- characterization --- rheorefining --- Li-ion battery --- anti-solvent crystallization --- basic oxygen furnace --- Bayan Obo --- selective precipitation --- pyrolysis --- WPCBs --- cold-bonded briquettes --- separation --- battery pre-treatment --- dysprosium --- dust --- metal recovery --- pyrometallurgy --- thermal treatment --- jarosite --- lifetime of steel --- leaching --- rare-earths --- sustainable development --- industry sector --- closed-loop circulation --- circular economy --- iron removal --- kinetics --- polishing waste --- material flow analysis --- cerium --- rare earth elements --- recycling potential --- halogenation --- ultra-high purity --- cryogenic pre-treatment --- Tin recovery --- refining --- WPCB --- desulfurization --- spent catalysts --- trace elements --- dimethyl sulfoxide --- vacuum distillation --- industrial residue --- condensation --- glass polishing waste --- flash smelting --- red mud --- microwave assisted pyrolysis --- NdFeB magnets --- cavitation --- sludge --- cementation --- indium --- metallurgy --- recycling --- gallium --- copper removal --- jarosite residue --- preparation for recovery --- laterites --- scandium recovery --- blast furnace --- circulation --- recycling rate --- REE-Nb-Fe ore